用于图像生成的量子角发生器

Rehm Florian, Vallecorsa Sofia, Grossi Michele, Borras Kerstin, Krücker Dirk, Schnake Simon, Verney-Provatas Alexis-Harilaos
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引用次数: 1

摘要

量子角发生器(QAG)是一种新的量子计算机生成模型。它由经过目标函数训练的参数化量子电路组成。QAG模型利用角度编码实现生成的量子数据与经典数据之间的转换。因此,每个特征或像素需要一个量子比特,而输出分辨率是根据执行图像生成的拍摄次数来调整的。这种方法可以在最近的量子计算机上生成高精度的图像。在本文中,该模型针对高能物理(HEP)用例进行了优化,生成了由特定粒子探测器(量热计)测量的简化一维图像。通过合理的射击次数,QAG模型达到了较高的精度水平。与其他量子生成模型(如量子gan (qgan)和量子电路生成机器)相比,QAG模型的优点是简单而稳定的训练,合理的量子位,电路调用,电路大小和计算时间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Quantum Angle Generator for Image Generation
The Quantum Angle Generator (QAG) is a new generative model for quantum computers. It consists of a parameterized quantum circuit trained with an objective function. The QAG model utilizes angle encoding for the conversion between the generated quantum data and classical data. Therefore, it requires one qubit per feature or pixel, while the output resolution is adjusted by the number of shots performing the image generation. This approach allows the generation of highly precise images on recent quantum computers. In this paper, the model is optimised for a High Energy Physics (HEP) use case generating simplified one-dimensional images measured by a specific particle detector, a calorimeter. With a reasonable number of shots, the QAG model achieves an elevated level of accuracy. The advantages of the QAG model are lined out - such as simple and stable training, a reasonable amount of qubits, circuit calls, circuit size and computation time compared to other quantum generative models, e.g. quantum GANs (qGANs) and Quantum Circuit Born Machines.
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